Coffee mucilage impact on young coffee seedlings and soil microorganisms

A greenhouse pot experiment was carried out to assess the effects of fermented coffee mucilage applied as mulch together with maize leaves on the growth of young coffee plants of two different varieties and on soil microbial biomass indices. The coffee variety Catuai required 32% more water per g pl...

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Veröffentlicht in:Journal of plant nutrition and soil science 2019-10, Vol.182 (5), p.782-790
Hauptverfasser: Castaño, Martha Isabel León, Jannoura, Ramia, Joergensen, Rainer Georg
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creator Castaño, Martha Isabel León
Jannoura, Ramia
Joergensen, Rainer Georg
description A greenhouse pot experiment was carried out to assess the effects of fermented coffee mucilage applied as mulch together with maize leaves on the growth of young coffee plants of two different varieties and on soil microbial biomass indices. The coffee variety Catuai required 32% more water per g plant biomass than the variety Yellow Caturra, but had a 49% lower leaf area, 34% less shoot and 46% less root biomass. Maize and mucilage amendments did not affect leaf area, shoot and root yield, or the N concentration in shoot and root dry matter. The amendments always reduced the water use efficiency values, but this reduction was only significant in the maize+mucilage‐14 (= 14 g mucilage pot−1) treatment. Soil pH significantly increased from 4.30 in the control to 4.63 in the maize+mucilage‐14 treatment. Microbial biomass C increased by 18.5 µg g−1 soil, microbial biomass N by 3.1 µg g−1 soil, and ergosterol by 0.21 µg g−1 soil per g mucilage added pot−1. The presence of mucilage significantly reduced the microbial biomass‐C/N ratio from a mean of 13.4 in the control and maize treatments to 9.3, without addition rate and coffee variety effects. The application of non‐composted mucilage is recommended in areas where drought leads to economic losses and in coffee plantations on low fertility soils like Oxisols, where Al toxicity is a major constraint.
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source Wiley Online Library Journals Frontfile Complete
subjects Biomass
Carbon/nitrogen ratio
Coffea arabica
Coffee
Corn
Drought
Dry matter
Economic impact
Ergosterol
Fermented food
Greenhouse effect
Greenhouses
Leaf area
Leaves
microbial biomass
Microorganisms
Mucilage
Plant biomass
Plants (botany)
Seedlings
Soil chemistry
Soil fertility
Soil microorganisms
Soil pH
Soil treatment
Soils
Toxicity
Water use
Water use efficiency
title Coffee mucilage impact on young coffee seedlings and soil microorganisms
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